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Sequence‐ and activity‐based screening of microbial genomes for novel dehalogenases

Chan, Wing Yiu, Wong, Max, Guthrie, Jennifer, Savchenko, Alexei V., Yakunin, Alexander F., Pai, Emil F., Edwards, Elizabeth A.·2010·Microbial Biotechnology

Abstract

Summary: Dehalogenases are environmentally important enzymes that detoxify organohalogens by cleaving their carbon‐halogen bonds. Many microbial genomes harbour enzyme families containing dehalogenases, but a sequence‐based identification of genuine dehalogenases with high confidence is challenging because of the low sequence conservation among these enzymes. Furthermore, these protein families harbour a rich diversity of other enzymes including esterases and phosphatases. Reliable sequence determinants are necessary to harness genome sequencing‐efforts for accelerating the discovery of novel dehalogenases with improved or modified activities. In an attempt to extract dehalogenase sequence fingerprints, 103 uncharacterized potential dehalogenase candidates belonging to the α/β hydrolase (ABH) and haloacid dehalogenase‐like hydrolase (HAD) superfamilies were screened for dehalogenase, esterase and phosphatase activity. In this first biochemical screen, 1 haloalkane dehalogenase, 1 fluoroacetate dehalogenase and 5 l ‐2‐haloacid dehalogenases were found (success rate 7%), as well as 19 esterases and 31 phosphatases. Using this functional data, we refined the sequence‐based dehalogenase selection criteria and applied them to a second functional screen, which identified novel dehalogenase activity in 13 out of only 24 proteins (54%), increasing the success rate eightfold. Four new l ‐2‐haloacid dehalogenases from the HAD superfamily were found to hydrolyse fluoroacetate, an activity never previously ascribed to enzymes in this superfamily.

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Metadata

Authors
Chan, W. Y., Wong, M., Guthrie, J., Savchenko, A. V., Yakunin, A. F., Pai, E. F., & Edwards, E. A.
Venue
Microbial Biotechnology
Publisher
Wiley
Published
2009-12-20
Volume
3
Issue
1
Pages
107-120
ISSN
1751-7915
Cited by
77
References
0
Language
en

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